Scrambling is the delocalization of quantum information over a many-body system and
underlies all quantum-chaotic dynamics. We employ discrete quantum cellular automata as …

Quantum scars are special eigenstates of many-body systems that evade thermalization.
They were first discovered in the PXP model, a well-known effective description of Rydberg …

Discrete-time quantum walks (QWs) are transportation models of single quantum particles
over a lattice. Their evolution is driven through causal and local unitary operators. QWs are a …

Quantum discrete-time walkers have since their introduction demonstrated applications in
algorithmics and to model and simulate a wide range of transport phenomena. They have …

Cluster states were introduced in the context of measurement-based quantum computing. In
one dimension, the cluster Hamiltonian possesses topologically protected states. We …

Adaptive quantum circuits--where a quantum many-body state is controlled using
measurements and conditional unitary operations--are a powerful paradigm for state …

Classical artificial neural networks, built from elementary units, possess enormous
expressive power. Here we investigate a quantum neural network (QNN) architecture, which …

We investigate the entanglement of a ladder of spins formed by two sublattices,
a''cluster''chain and the''environment'', consisting of independent spins, both coupled by an …